[0001] The present invention relates to a connector for electrically connecting a flexible
cable, in which contact terminals are arranged with high density, to an electrical
circuit such as a printed circuit board and, more particularly, to a small-sized connector
which can achieve excellent contact with a flexible cable in which a large number
of contact terminals are alternately arranged in a staggered form at very small pitches.
[0002] Recently, the sizes of electrical circuits such as printed circuit boards have been
extremely reduced. At the same time, a demand has arisen for increased integration
densities of the circuits themselves. In order to meet these demands small-sized,
high-density flexible cables and connectors have been produced to connect between
these types of electrical circuits. For this reason, in e.g., a flexible cable, contact
terminals are alternately arranged in staggered form, so that a large number of contact
terminals can be arranged with high density in a very small area. Such a flexible
cable is connected to a connector attached to a high-density connecting portion of
a printed circuit board.
[0003] A conventional connector of this type includes contactors arranged on one side surface
of a connector housing and brought into electrical contact with contact terminals
of a cable inserted in the housing. The connector also includes a slider for urging
the contact terminals of the flat flexible cable, inserted in the connector housing,
against the contactors in the connector housing and connecting the terminals to the
contactors. After the cable is inserted in the housing, this slider is fitted into
the housing to clamp the connecting portion of the cable with the one side of the
housing.
[0004] When the contact terminals of the cable are arranged in staggered form as described
above, however, contact terminals are alternately arranged at front and rear positions
with reference to the end portion of the cable, along their longitudinal direction.
Therefore. a contactor train in the connector housing which is electrically connected
to the contact portions of the cable is arranged to have an interval in a direction
to insert the cable. Therefore, the size of the connector housing is increased. In
addition, space for a cable inserted in and connected to the connector housing and
space to allow for fitting the slider are required. Therefore, in the arrangement
of a conventional connector the size of the entire connector is inevitably increased.
Another problem is that when the cable is clamped with the connector housing for connection,
or when the cable is disconnected from the connector, the distance of movement, i.e.
removal and insertion of the slider with respect to the connector housing, is increased,
thus increasing the size of the entire connector.
[0005] It is, therefore, an object of the present invention to provide a connector which
can minimize the pitches of contact terminals of a cable and connector serving as
connecting means, since these pitches are required by the development of a high-density
electrical circuit such as a printed circuit board, and which can decrease the size
thereof while maintaining an excellent connection between the cable and connector.
[0006] EP-A-0320250 describes an electrical connector for connecting a flat flexible cable
to a printed circuit board. Terminal contacts are mounted in a space in a housing
and these contacts have legs which are of two different lengths to correspond to contact
areas of the cable. The cable is inserted into the space in the housing with the aid
of a plug or slider which urges the contact areas of the cable into contact with the
legs of the contacts.
[0007] According to the preamble of claim 1, and as is known from EP-A-0320250, an electrical
connector for use with a flat flexible cable with a plurality of conductors comprises
a housing having a space therein accessible through an opening in one side, the space
serving for receiving said flexible cable; a plurality of first and second electrical
contactors arranged alternately side by side within said space, each of said electrical
contactors having a contact end portion for electrically contacting one of said conductors
of said flexible cable, all of said contact end portions extending along said space
toward said opening in the housing, in a direction opposite to that in which the cable
is received with the distance over which the contact end portions of all the first
contactors extend being greater than the distance over which the contact end portions
of all the second contactors extend and a slider for inserting said flat flexible
cable through said opening and into the space of the housing to contact said first
and second electrical contactors.
[0008] In contrast to EP-A-0320250, and in accordance with the invention, each of said contact
portions also extends across said space perpendicularly to the direction in which
the cable is received to a predetermined depth, with each of the contact end portions
of said first contactors extending across said space to a depth which is less than
the depth to which each of the contact end portions of the second contactors extend
and said slider includes a forward end portion having a thickness which substantially
corresponds to the transverse depth of the gap left in the space by all of the contact
end portions of said second contactors and a rearward portion having a thickness which
substantially corresponds to the transverse depth of the gap left in the space by
all of the contact end portions of said first contactors, thereby providing for electrical
contact between each of said contact end portions and a predetermined conductor of
said flat flexible cable.
[0009] Thus, the contact end portions of the contactors in the housing are staggered in
two directions, i.e., in a back-and-forth direction and a height direction. Even if
the pitch between the adjacent contact terminals of the cable conductors is very small,
sufficient pitches can be obtained with a connector according to the invention to
achieve excellent electrical connection with the contact terminals of the cable, with
high reliability.
[0010] The slider can be provided with an indentation which defines substantially said forward
end portion, the depth of said indentation being greater than the thickness of said
flat flexible cable. Therefore, a gap required to insert the cable is formed between
the slider and an inner wall of the housing, so that the flat cable can be inserted
into the connector housing without completely removing the slider from the housing.
[0011] It is desirable that the indentation provides a smoothly inclined surface facing
the contact end portions and merging the forward end rearward portions of the slider.
[0012] Utilizing this arrangement of the contactors and the slider, a relatively thin portion
is formed at the distal end region of the slider to compensate for the difference
in the heights of the contact end portions. This portion of the slider is utilized
as a gap formation means to assist the insertion of the flexible cable, and as an
urging member for the contact end portions at the innermost region of the housing.
Therefore, the space required to insert the cable, and the size of the slider are
minimized, thus achieving a small-sized connector. This is one of the advantages of
the present invention.
[0013] The contactors may also have U-shaped portions disposed in the housing space. The
first and second contact end portions can then alternately form one arm of each of
said U-shaped portions of adjacent electrical contactors with the forward end portion
of said slider being adapted to slide within said U-shaped portions when inserted
into said space of the housing.
[0014] The invention can be more fully understood from the following detailed description
when taken in conjunction with the accompanying drawings, in which:
Figure 1 is a perspective view of a connector according to an embodiment of the present
invention;
Figure 2 is a view showing a flexible cable connected to a connector of the present
invention and, in particular, the arrangement of contact terminals;
Figs. 3 and 4 are sectional views respectively taken along the lines 1 - 1 and 3 -
3 of Fig. 1, each showing the shape of a side surface of a contactor which constitutes
the connector of the present invention, and showing the positional relationship between
the connector housing and the slider; and
Figs. 5 and 6 are sectional views respectively taken in the same manner as in Figs.
3 and 4, for explaining the relationship between the connector and the cable achieved
when the cable is attached to the connector according to the present invention.
[0015] Fig. 1 shows an embodiment of the present invention. A connector 2 shown in Fig.
1 includes a housing 10, in which a large number of first and second contactors 6
and 8 are alternately and linearly arranged, and a slider 12, fitted into the housing.
A side of the housing 10 with a first side surface 11 has an opening through which
an internal space 4 of the housing communicates with the outside.
[0016] Fig. 2 is a plan view of a flexible cable 14 used for the connector of the present
invention. The flexible cable 14 includes a large number of conductors (lead wires)
arranged parallel to each other on a base consisting of an insulating material. In
an end portion of the cable, each lead wire has a contact terminal 16a or 18a. The
terminals 16a and 18a are alternately arranged in a staggered form on the base. Each
of portions 16b and 18b in the lead wires which are not in contact with the connector
are covered with an insulating protective film 201.
[0017] Fig. 3 is a cross-sectional view of the connector 2 taken along the line 1 - 1 of
Fig. 1, and Fig. 4 is a cross-sectional view of the connector 2 taken along the line
3 - 3 of Fig. 1. A large number of first and second contactors 6 and 8 alternately
and linearly arranged in the housing 10 have arm portions 61 and 81, respectively.
The cross section of each of the arm portions 61 and 81 is substantially U shaped,
as shown in Figs. 3 and 4. The first and second contactors 6 and 8 have contact end
portions 60 and 80, at the end portions of the arm potions 61 and 81, respectively.
A surface 62 opposite the contact end portion 60 of the arm portion 61 and a surface
82 opposite the contact end portion 80 of the arm portion 81 are located on the same
plane.
[0018] A difference between the contactors 6 and 8 is that the positions of the contact
end portions 60 and 80 are differ relatively in two directions, i.e. in directions
orthogonal to the surface 11 and the surfaces 62,82 forth and heightwise. First, the
contact end portion 60 of the contactor 6 is located at a first position which is
spaced away from the opening portion by a predetermined distance in a direction parallel
to a first internal surface 13, perpendicular to the first side surface 11 of the
housing 10, i.e. the direction A of insertion of the slider 12 to the connector housing
10, and is close to the surface 15 opposite the first side 11. In contrast to this,
the contact end portion 80 of the contactor 8 is located at a second position which
is closer to the opening portion than the first position by a predetermined distance,
and is positioned toward the first side surface 11. Second, the heights of the contact
end portions 60 and 80 are different from each other, i.e., the contact end portion
60 of the first contactor 6, far from the opening portion of the housing, extends
farther than the contact end portion 80 of the second contactor 8 with respect to
the opposite surfaces 62 and 82. As shown in Fig. 1, therefore, the contact end portions
60 of the plurality of contactors 6 are linearly arranged to form a single train,
while the contact end portions 80 of the other contactors 8 are linearly arranged
to form another single train. The contactors 6 located deep in the housing are brought
into electrical contact with the contact terminals 16a, linearly arranged near the
end portion 14a of the flexible cable 14 as shown in Fig. 2, at the contact end portions
60, and the contactors 8 located near a cable insertion port in the housing are brought
into electrical contact with the contact terminals 18a linearly arranged at the contact
end portions 80, at positions farther from the end portion 14a of the flexible cable
14 than the other contact terminals 16a.
[0019] Gaps 63 and 83, respectively formed by the arm portions 61 and 81 of the contactors
6 and 8, receive the flexible cable 4 and the slider 12.
[0020] The thickness of the slider 12 is changed substantially in correspondence with the
heights of the gaps 63 and 83 respectively formed by the arm portions 61 and 81 of
the contactors 6 and 8. More specifically, in the slider 12, an indentation 20 is
formed in a part extending from the distal end by a predetermined distance, as shown
in the cross-sectional views in Figs. 3 and 4. The thickness of the portion in which
the indentation 20 is formed is less than that of the other portion.
[0021] The indentation 20 of the slider 12 extends in the direction of insertion into the
housing to a point substantially intermediate between the first and second contact
end portions with respect to the side surface 15, opposite the side surface 11 defining
the opening. The indentation 20 is preferably formed such that when the slider 12
is inserted into the space 4 in the housing 10, i.e. into a gap formed by the contactors
6 and 8 arranged in the housing 10, and abuts against the end of the gap, i.e. the
deepest portions of the arms 61 and 81 of the contactors 6 and 8, the boundary between
a thin portion 21 and the other portion 22 in the slider 12 is located between the
contact end portions 60 and 80 of the above-mentioned two types of contactors 6 and
8, which are staggered. In addition, the depth of the indentation 20 of the slider
12, that is the difference in thickness between the thick 22 and the thin 21 portions,
is preferably greater than the thickness of the flexible cable to be connected. Moreover,
as shown in Figs. 3 and 4, in the cross-sectional shape of the indentation 20 formed
in the slider 12, a smoothly inclined surface is preferably formed without a sharp
step at the boundary between the thick and thin portions 21 and 22 of the slider 12.
[0022] Use of the connector according to the present invention with the above arrangement
will be described below with reference to Figs. 5 and 6. As shown in Fig. 5, the slider
12 is removed from the connector housing 10 by a distance corresponding to the length
of a substantially horizontal flat portion of the indentation 20. While the thin portion
21 is entirely or partially left in the housing, the cable 14 is inserted into the
gaps 63 and 83 of the contactors 6 and 8 in the housing 10 through the gap between
the contactor 8 near the cable insertion port in the connector housing 10 and the
slider 12. At this time, the cable 14 is inserted into the gaps 63 and 83 of the contactors
6 and 8 while being smoothly curved along the inclined boundary of the indentation
20 of the slider 12. As shown in Fig. 5, when the distal end of the cable 14 abuts
against the end of the gap of the contactors 6 and 8, and before the slider 12 is
completely inserted into the housing 10, a group of the contact ends 60, linearly
arranged at a lower position far from the cable insertion port in the housing 10,
abuts or substantially abuts against a group of the contact terminals 16a near the
end portion of the cable 14. At the same time, a group of the contact end portions
80, which is linearly arranged at a higher position near the cable insertion port
in the housing 10 abuts or substantially abuts against a group of the contact terminals
18a far from the end portion of the cable 14. When the slider 12 is pushed into the
deep portions of the gaps of the contactors 6 and 8 in the housing 10 from the above
state, the slider 12 pushes up the contact terminals 16a and 18a of the cable, and
the contact end portions 60 and 80 in the housing 10, and causes the contact terminals
16a and 18a to be respectively urged against and brought into contact with the contact
end portions 60 and 80 by required pressures. In addition, the cable 14 is clamped
and fixed in the connector housing 10. As shown in Fig. 6, in this state, the contact
terminals 16a of the cable are pushed up by the flat surface of the thick portion
22 of the slider, and are urged against and brought into contact with the contact
end portion 80 located at a higher position in the connector. The contact terminals
18a of the cable are pushed up by the horizontal flat surface of the thin portion
21 of the slider, and are urged against and brought into contact with the contact
end portion 60 located at a lower position in the connector. A cable portion between
contact points with these contactors has a shape substantially conforming to the inclined
surface of the slider 12. Therefore, the cable 14, held and fixed in the connector
housing 10, can maintain its smooth shape along the indentation 20 of the slider 12
without being bent. Therefore, the contact terminals 16a and 18a, and the lead wire
portions 16b and 18b of the cable 4 can be free from damage, and an electrical disconnection
cannot occur.
[0023] As has been described above in detail, according to the connector of the present
invention, the contact terminals of the cable are alternately arranged in a staggered
form, and the contactors in the connector housing are also arranged such that their
contact end portions are alternately arranged in a staggered form. Therefore, each
contact terminal can be excellently electrically connected even if pitches between
the contact terminals decrease along with the development of a high-density, small-sized
printed circuit board to be connected to the connector. At the same time, in the contactors
alternately arranged at front and rear portions in the connector housing, their heights
with respect to a direction to be brought into contact with the cable are different
from each other, and an indentation is formed in the slider in association with the
difference of the height. Therefore, the size of the connector housing itself and
the moving distance of the slider with respect to the connector housing can be decreased.
Thus, not only is the size of the connector reduced, but also insertion of the cable
into the connector housing can be smoothly performed, and the cable can be brought
into electrical contact with the connector with high reliability.
1. An electrical connector (2) for use with a flat flexible cable (14) with a plurality
of conductors; said connector (2) comprising:
a housing (10) having a space (4) therein accessible through an opening in one
side (11) the space (4) serving for receiving said flexible cable (14);
a plurality of first and second electrical contactors (8, 6) arranged alternately
side by side within said space (4), each of said electrical contactors (8, 6) having
a contact end portion (80, 60) for electrically contacting one of said conductors
of said flexible cable (14), all of said contact end portions (80, 60) extending along
said space (4) toward said opening in the housing (10), in a direction opposite to
that in which the cable (14) is received with the distance over which the contact
end portions (80) of all the first contactors (8) extend being greater than the distance
over which the contact end portions of all the second contactors (6) extend and a
slider (12) for inserting said flat flexible cable (14) through said opening and into
the space (4) of the housing to contact said first and second electrical contactors
(8, 6); characterised in that each of said contact end portions (80, 60) also extends
across said space (4) perpendicularly to the direction in which the cable is received
to a predetermined depth, with each of the contact end portions (80) of said first
contactors (8) extending across said space (4) to a depth which is less than the depth
to which each of the contact end portions (60) of the second contactors (6) extend
and
said slider (12) includes a forward end portion (21) having a thickness which substantially
corresponds to the transverse depth of the gap left in space (4) by all of the contact
end portions (60) of said second contactors (6) and a rearward portion (22) having
a thickness which substantially corresponds to the transverse depth of the gap left
in space (4) by all of the contact end portions (80) of said first contactors (8),
thereby providing for electrical contact between each of said contact end portions
(80,60) and a predetermined conductor of said flat flexible cable (14).
2. An electrical connector according to Claim 1, wherein said first and second electrical
contactors (8, 6) also have U-shaped portions (81, 61) disposed in said space (4),
said first and second contact end portions (80, 60) alternately forming one arm of
each of said U-shaped portions (81, 61) of adjacent electrical contactors (8, 6) with
the forward end portion (21) of said slider being adapted to slide within said U-shaped
portions (81, 61) when inserted into said space (4) of the housing (10).
3. An electrical connector according to Claim 1 or 2, wherein said slider (12) is provided
with an indentation (20) which defines substantially said forward end portion (21),
the depth of said indentation (20) being greater than the thickness of said flat flexible
cable (14).
4. A connector according to Claim 3, wherein the indentation (20) provides a smoothly
inclined surface facing the contact end portions (80, 60) and merging the forward
end rearward portions (21, 22) of the slider (12).
5. A connector according to any one of Claims 1 to 3, wherein the first and second contactors
(8, 6) each have contact surfaces (82, 62) located opposite the respective. contact
end portions (80, 60).
1. Elektrischer Verbinder (2) für die Verwendung mit einem flachen flexiblen Kabel (14)
mit einer Vielzahl von Leitern, wobei der Verbinder (2) folgendes enthält:
ein Gehäuse (10) mit einem Raum (4) in dem Gehäuse, welches über eine Öffnung in
einer Seite (11) zugänglich ist, wobei der Raum (4) für die Aufnahme des flexiblen
Kabels (14) dient,
eine Vielzahl von ersten und zweiten elektrischen Kontaktvorrichtungen (8,6), die
abwechselnd Seite an Seite innerhalb des Raumes (4) angeordnet sind, wobei jede der
elektrischen Kontaktvorrichtungen (8,6) einen Kontakt-Endabschnitt (80,60) besitzt,
um elektrisch einen der Leiter des flexiblen Kabels (14) zu kontaktieren, wobei sich
alle die Kontakt-Endabschnitte (80,60) entlang dem Raum (4) zu der Öffnung in dem
Gehäuse (10) hin in einer Richtung entgegengesetzt zu derjenigen, in welcher das Kabel
(14) aufgenommen wird, erstrecken, wobei die Strecke, über die sich die Kontakt-Endabschnitte
(80) aller erster Kontaktvorrichtungen (8) erstrecken, größer ist als die Strecke,
über die sich die Kontakt-Endabschnitte aller zweiter Kontaktvorrichtungen (6) erstrekken,
ein Gleitstück (12), um das flache flexible Kabel (14) durch die Öffnung in den Raum
(4) des Gehäuses einzuschieben, um die ersten und zweiten elektrischen Kontaktvorrichtungen
(8,6) zu kontaktieren, dadurch gekennzeichnet, daß jeder der Kontakt-Endabschnitte
(80,60) sich auch über den Raum (4) senkrecht zu der Richtung, in welcher das Kabel
aufgenommen wird und bis zu einer vorbestimmten Tiefe erstreckt, wobei jeder der Kontakt-Endabschnitte
(80) der ersten Kontaktvorrichtungen (8) sich über den Raum (4) bis zu einer Tiefe
erstreckt, die kleiner ist als die Tiefe, bis zu welcher sich jeder der Kontakt-Endabschnitte
(60) der zweiten Kontaktvorrichtungen (6) erstreckt und
das Gleitstück (12) einen vorderen Endabschnitt (21) mit einer Dicke besitzt, die
im wesentlichen der quer verlaufenden Tiefe des Spaltes entspricht, der in dem Raum
(4) durch alle die Kontakt-Endabschnitte (60) der zweiten Kontaktvorrichtungen (6)
belassen wird, und einen rückwärtigen Abschnitt (22) mit einer Dicke besitzt, die
im wesentlichen der quer verlaufenden Tiefe des Spaltes entspricht, der in dem Raum
(4) durch alle die Kontakt-Endabschnitte (80) der ersten Kontaktvorrichtungen (8)
belassen wird, um dadurch einen elektrischen Kontakt zwischen jedem der Kontakt-Endabschnitte
(80,60) und einem vorbestimmten Leiter des flachen flexiblen Kabels (14) zu erzeugen.
2. Elektrischer Verbinder nach Anspruch 1, bei dem die ersten und die zweiten elektrischen
Kontaktvorrichtungen (8,6) auch U-förmig gestaltete Abschnitte (81,61) besitzen, die
in dem Raum (4) angeordnet sind, wobei die ersten und die zweiten Kontakt-Endabschnitte
(80, 60) abwechselnd einen Arm jedes der U-förmig gestalteten Abschnitte (81, 61)
von benachbarten elektrischen Kontaktvorrichtungen (8, 6) formen, wobei der vordere
Endabschnitt (21) des Gleitstücks dafür ausgebildet ist, um innerhalb der U-förmig
gestalteten Abschnitte (81, 61) zu gleiten, wenn dieses in den Raum (4) des Gehäuses
(10) eingeschoben wird.
3. Elektrischer Verbinder nach Anspruch 1 oder 2, bei dem das Gleitstück (12) mit einer
Kerbung (20) ausgestattet ist, die im wesentlichen den vorderen Endabschnitt (21)
bildet, wobei die Tiefe der Kerbung (20) größer ausgebildet ist als die Dicke des
flachen flexiblen Kabels (14).
4. Verbinder nach Anspruch 3, bei dem die Kerbung (20) eine weich geneigte Fläche bildet,
die zu den Kontakt-Endabschnitten (80,60) hinweist und in die rückwärtigen Abschnitte
(21, 22) des vorderen Endes des Gleitstücks (12) übergeht.
5. Verbinder nach irgendeinem der Ansprüche 1 bis 3, bei dem die ersten und die zweiten
Kontaktvorrichtungen (8, 6) jeweils Kontaktflächen (82, 62) aufweisen, die gegenüber
den jeweiligen Kontakt-Endabschnitten (80, 60) gelegen sind.
1. Un connecteur électrique (2) destiné à être utilisé avec un câble flexible plat (14)
comportant une pluralité de conducteurs, ledit connecteur comprenant :
un boîtier (10) présentant un espace intérieur (4) accessible par une ouverture
sur une face (4) étant destiné à recevoir le dit câble flexible (14);
une pluralité de premiers et de seconds organes de contact électrique (8, 6) disposées
de manière alternée côte-à-côte dans ledit espace (4), chacun desdits organes de contact
électrique (8,6) ayant une partie terminale de contact (80, 60) pour établir un contact
électrique avec l'un desdits conducteurs dudit câble flexible (14), toutes lesdites
parties terminales de contact (80, 60) s'étendant dans ledit espace (4) vers ladite
ouverture du boîtier (10), dans une direction opposée à celle dans laquelle est reçu
le câble (14), la distance sur laquelle s'étendent les parties terminales de contact
(80) de tous les premiers organes de contact (8) étant supérieure à la distance sur
laquelle s'étendent les parties terminales de contact de tous les seconds organes
de contact (6), et avec un coulisseau (12) pour l'insertion dudit câble flexible (14)
dans ladite ouverture et dans l'espace (4) du boîtier pour venir en contact avec lesdits
premiers et seconds organes de contact (8, 6), caractérisé en ce que chacune desdites
partie terminales de contact (80, 60) s'étend également dans ledit espace (4) perpendiculairement
à la direction dans laquelle le câble est reçu jusqu'à une profondeur prédéterminée,
chacune desdites parties terminales de contact (80) desdits premiers organes de contact
(8) s'étendant dans cet espace (4) jusqu'à une profondeur qui est inférieure à la
profondeur jusqu'à laquelle chacune des parties terminales de contact (60) des seconds
organes de contact (6) s'étend et en ce que
ledit coulisseau (12) comprend une partie terminale antérieure (21) ayant une épaisseur
qui correspond sensiblement à la profondeur transversale de l'intervalle laissée dans
l'espace (4) par toutes les parties terminales de contact (60) desdits seconds organes
de contact (6), et une partie arrière (22) ayant une épaisseur qui correspond sensiblement
à la profondeur transversale de l'intervalle laissée dans l'espace (4) par toutes
les parties terminales de contact (80) desdits premiers organes de contact (8), de
manière à ménager un contact électrique entre chacune desdites parties terminales
de contact (80, 60) et un conducteur prédéterminé dudit câble flexible (14).
2. Un connecteur électrique selon la revendication 1, dans lequel lesdits premiers et
seconds organes de contact (8, 6) ont en outre des parties en forme de U (81, 61)
disposées dans ledit espace (4) , lesdites premières et secondes parties terminales
de contact (80, 60) constituant alternativement un bras de chacune desdites parties
en forme de U (81, 61) d'organes de contact électriques (8, 6) adjacents, la partie
terminale antérieure (21) dudit coulisseau étant susceptible de coulisser à l'intérieur
desdites parties en forme de U (81, 61) lors de son insertion dans ledit espace (4)
du boîtier (10).
3. Un connecteur électrique selon la revendication 1 ou 2, dans lequel ledit coulisseau
(12) est pourvu d'une dentelure (20) qui définit sensiblement ladite partie terminale
antérieure (21), la profondeur de ladite dentelure (20) étant supérieure à l'épaisseur
dudit câble flexible plat (14).
4. Un connecteur selon la revendication 3, dans lequel la dentelure (20) ménage une surface
inclinée de façon progressive en regard des parties terminales de contact (80, 60)
et se fondant dans les parties antérieure et arrière (21, 22) du coulisseau (12).
5. Un connecteur selon l'une quelconque des revendications 1 à 3, dans lequel les premiers
et seconds organes de contact (8, 6) ont chacun des surfaces de contact (82, 62) disposées
en regard de parties terminales de contact correspondantes (80, 60).